Semester: | 1. |
Credits: | 6 CP |
Duration: | 1 Semester |
Module Supervisor: | Prof. Dr. Benjamin Bechtel |
Contact hours: | 3 SWS |
Selfstudy: | 140 h |
Group size: | 15 |
Students acquire the following knowledge and skills:
Provides advanced theoretical and practical knowledge in geographic data and information processing.
Possible topics:
Seminar
Practice-related final task
Conditions for granting credit points
Passing of the examination task
Usage of the module
Compulsory elective module
Stellenwert der Note für die Endnote
The module grade is CP-weighted and is included in the final M.Sc. grade.
No courses are scheduled for this semester.
Lecturers: | Benjamin Bechtel |
Course type: | Seminar |
Registration: | eCampus Registration via eCampus from 14.07.-27.09.2023 |
Examination components: | Written thesis Presentation and processing of the practical exercises (course work) |
Target audience: | Students of the Master SLÖK, open for other majors |
Requirements: | Interest in remote sensing, basic GIS knowledge. |
In-depth examination of the role of remote sensing in the geosciences; hands-on experience processing exemplary remote sensing data in GIS; guided and independent performance of various data analyses.
ContentWith the Sentinel satellites of ESA's Copernicus program and new missions from NASA (e.g., Landsat 8 and 9), as well as the opening of archives of historical remote sensing data, a new era of Earth observation has begun. These opportunities are fostering new methods that harness multitemporal and multisensory data from the local to the global scale for a wide variety of environmental monitoring applications. These include terrestrial and marine ecosystems, the atmosphere, and climate change monitoring.
In this course, we address theoretically and practically the opportunities for the geosciences arising from these developments. Therefore, we discuss the current state of the art and future sensors and their applications in environmental research. More specifically, we consider the monitoring capabilities of key parameters of all geospheres and a wide range of remote sensing techniques, including multispectral, hyperspectral, thermal, and RADAR techniques. Ultimately, we aim to understand how this partial knowledge can be integrated into more holistic modeling approaches for the Earth system, supporting policy and decision making on environmental problems.
OrganizationThe course divided into the following blocks of topics: I. Fundamentals, II. remote sensing of land surface, III. urban remote sensing, IV. remote sensing of oceans, V. remote sensing of the atmosphere, VI. Integration
In each block, theoretical content on individual sensors and methods will be taught (as input and in the form of presentations) as well as practical example analyses using GIS. Mainly open source software is used, which will be available later in professional life.
Literaturewill be announced in the Moodle course
Lecturers: | Malte Bührs |
Course type: | Seminar |
Registration: | eCampus Registration via eCampus during the semester break from 14.07.-27.09.2023
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